Message from @Blade

Discord ID: 625360424094793728


2019-09-22 14:16:41 UTC  

Now, not like some one didnt already have this but now its public LMAO

2019-09-22 14:28:19 UTC  

@Blade I don't think its for those types of calculations at all

2019-09-22 14:30:01 UTC  

Yes it is @ikillu

2019-09-22 14:30:03 UTC  

"The tantalizing promise of quantum computers is that certain computational tasks might be executed exponentially faster on a quantum processor than on a classical processor. A fundamental challenge is to build a high-fidelity processor capable of running quantum algorithms in an exponentially large computational space. Here, we report using a processor with programmable superconducting qubits to create quantum states on 53 qubits, occupying a state space 2^53 ~ 10^16. Measurements fro…"

2019-09-22 14:30:39 UTC  

Click on the BING Cache and read the document

2019-09-22 14:32:50 UTC  

bingj dot con, heh, I ain't clickin that bro

2019-09-22 14:33:22 UTC  

Idgaf what you do

2019-09-22 14:33:30 UTC  

P vs NP problems are no longer a thing

2019-09-22 14:34:21 UTC  

I assume this paper https://arxiv.org/pdf/1905.00444.pdf is the runner up to this new paper that got pulled

2019-09-22 14:35:04 UTC  

@ikillu https://archive.is/8Oeqz See this is the original news post about it

2019-09-22 14:36:33 UTC  

GET YOUR Post-Quantum Cryptography READY BOI LMAO

2019-09-22 14:40:12 UTC  

Seriously this is big news

2019-09-22 15:22:08 UTC  

A COMPUTATIONAL TASK TO
DEMONSTRATE QUANTUM SUPREMACY
To demonstrate quantum supremacy, we compare our quantum processor against state-of-the-art classical computers in the task of sampling the output of a pseudo- random quantum circuit[24{26]. Random circuits are a suitable choice for benchmarking since they do not possess structure and therefore allow for limited guarantees of computational hardness[24, 25, 27, 28]. We design the circuits to entangle a set of quantum bits (qubits) by repeated application of single-qubit and two-qubit logical operations. Sampling the quantum circuit’s output produces a set of bitstrings, e.g. f0000101, 1011100, ...g. Due to quantum interference, the probability distribution of the bitstrings resembles a speckled intensity pattern produced by light interference in laser scatter, such that some bitstrings are much more likely to occur than others.

2019-09-22 15:28:56 UTC  

If this design is shifted a little to guess the factors of a private key of a asymmetric cryptographic algorithm based on some N number of samples of encrypted messages, then this shit is literally magic.

2019-09-22 15:31:30 UTC  

traditional encryption is basically obsolete now

2019-09-22 15:59:03 UTC  

This some real shit finally

2019-09-22 15:59:14 UTC  

Along with the rest of the channel

2019-09-22 16:01:06 UTC  

weird

2019-09-22 16:01:21 UTC  

you were serious about it applying to encryption @Blade ?

2019-09-22 16:03:25 UTC  

Yes I am

2019-09-22 16:04:01 UTC  

This shit is serious, I am serious

2019-09-22 16:04:59 UTC  

This should all be front page news but you know how that goes

2019-09-22 16:09:22 UTC  

This paper that was pulled may have been pulled due to it not being peer reviewed or it could be to it being groundbreaking tech and it as an accident that it was posted at all so they pulled it, what ever the case is the fact remains that there was a paper posted that show evidence for such a system to do what I described up above

2019-09-22 16:18:07 UTC  

AMAZING!

2019-09-22 16:18:22 UTC  

it makes me wonder why no one is talking about it all too much though

2019-09-22 16:19:39 UTC  

Because politics is waaaaaaayyyy more interesting (pro-tip hint: its not)

2019-09-22 16:20:34 UTC  

And funny enough I understand some of what these videos are saying because its part of my job to know about radio frequencies and electronics

2019-09-22 16:27:53 UTC  

it's not mentioned anywhere on /g/ or /biz/

2019-09-22 16:28:46 UTC  

Im not surprised

2019-09-22 16:28:57 UTC  

This is where I got lost for sure

2019-09-22 16:38:17 UTC  

And so on